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Elaris Computing Nexus

Elaris Computing Nexus


A Self Adaptive Meta Learning Model for Personalized Computational Intelligence in Dynamic Problem-Solving Environments


Elaris Computing Nexus

Received On : 28 March 2026

Revised On : 06 May 2026

Accepted On : 16 May 2026

Published On : 05 June 2026

Volume 02, 2026

Pages : 080-093


Abstract

The data distributions, user preferences, and environmental factors change over time, personalized computational intelligence plays a crucial role in applications. Traditional machine learning models tend to be less effective when dealing with new tasks or problems because they need to be retrained. In this paper, a novel self-adaptive meta-learning approach is proposed to empower CIS to learn quickly from different tasks, integrate the new knowledge to enhance the performance for the evolving tasks, and transfer the knowledge to further tasks without sacrificing the personalized decision-making capability. The proposed framework combined the concept of meta-learning with an adaptive feedback mechanism which continually observes the performance of the learner with respect to the task and adjusts the learning strategies as required by changes in the environment. A lightweight knowledge adaptation module is integrated to achieve efficient real-time deployment, improve generalization and reduce computational overhead. The framework's aim is to achieve a compromise between stability and adaptability in learning, which it achieves by optimising the framework iteratively with the hope of converging quickly even when training samples are limited and the data is not stationary. Experimental testing on several benchmark datasets shows the competitiveness of the prediction performance, adaptation speed and robustness with respect to the classical deep learning and current meta-learning methods, while preserving the computational efficiency. The proposed framework is able to deal with concept drift, task heterogeneity and personalised learning needs while maintaining the property of scalability. The results show that the self-adaptive meta-learning system proposed in this paper is a practical and intelligent solution for next-generation computational intelligence system in dynamic environments, such as healthcare systems, intelligent transportation systems, cyber-physical systems, smart manufacturing systems and personalized decision support systems.

Keywords

Self-Adaptive Learning, Meta-Learning, Computational Intelligence, Personalized Learning, Dynamic Problem-Solving, Knowledge Adaptation.

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Cite this Article

Gunhee Gon Chun, “A Self Adaptive Meta Learning Model for Personalized Computational Intelligence in Dynamic Problem-Solving Environments”, Elaris Computing Nexus, pp. 080-093, 2026, doi: 10.65148/ECN/2026007.

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© 2026 Gunhee Gon Chun. This is an open access article distributed under the terms of the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original author and source are credited.